Uplink power control method, power control parameter configuration method and apparatus thereof

ABSTRACT

Disclosed are an uplink power control method, power control parameter configuration method and apparatus thereof. The uplink power control method comprises: a user equipment receives data in M downlink sub-frames of N downlink carriers and generates uplink control information, wherein the uplink control information of the M downlink sub-frames is transmitted in one uplink sub-frame; the user equipment determines ΔF_PUCCH(F) and h(n) for calculating the transmit power of a physical uplink control channel (PUCCH) according to whether the number of bits of the uplink control information is larger than a predefined threshold; ΔF_PUCCH(F) represents the power offset of different PUCCH formats relative to the PUCCH format 1a, h(n) represents the power offset corresponding to the number of transmission bits of the PUCCH; the user equipment calculates the PUCCH transmit power according to ΔF_PUCCH(F) and h(n), and sending the uplink control information on the PUCCH using the calculated transmit power. The present is invention can improve the accuracy of power control, thus enhance the transmission performance of the uplink control information.

This application requires the priority to Chinese patent application:Which should be submitted to the Chinese Patent Office on Jan. 6, 2011,the application No. 201110001900.4, invention name as “Uplink PowerControl Method, Power Control Parameter Configuration Method andApparatus thereof”.

FIELD OF THE PRESENT INVENTION

The present invention relates to the field of wireless communicationtechnology, in to particular to the uplink power control method, powercontrol parameter configuration method and apparatus thereof.

BACKGROUND OF THE PRESENT INVENTION

Currently, LTE-A (Long Term Evolution-Advanced) system can support CA is(Carrier Aggregation) of five carriers at most, and one LTE-A UE (UserEquipment) needs to feed back the ACK (ACKnowledgement)/NACK(Non-ACKnoledgement) feedback information corresponding to multipledownlink carriers and downlink sub-frame in the same uplink sub-frame.In order to avoid inconsistent understanding between eNB (eNodeB) and UEtoward ACK/NACK codebook during packet loss, the ACK/NACK codebook to befed back by UE on one uplink sub-frame shall be generated based on themaximum configuration: for FDD (Frequency Division Duplex) system,ACK/NACK codebook is decided by the total number of configured downlinkcarrier and the transmission mode of each downlink carrier, viz. UEneeds to feed back N+N1 bit ACK/NACK in one uplink sub-frame, wherein Nrefers to the total number of configured downlink carrier number and N1is the downlink carrier number with transmission mode of multi-codeword;as for TDD (Time Division Duplex) system, ACK/NACK codebook depends onthe total number of configured downlink carrier number, transmissionmode of each downlink carrier and the total number of downlink sub-frameof UE performing ACK/NACK feedback on the same uplink sub-frame, viz. UEshall feed back M×(N+N1) bit ACK/NACK on one uplink sub-frame, wherein Mrefers to the total number of downlink sub-frame number performingACK/NACK feedback on the same sub-frame, for different uplink/downlinkconfiguration and uplink sub-frame, M varies, viz. number of K in eachcolumn of Table 1. Besides, M may be different for various carriers,then UE shall feed back

$\sum\limits_{i = 1}^{N}\; {C_{i} \cdot M_{i}}$

bit ACK/NACK in one uplink sub-frame, wherein, C_(i) is the codewordnumber corresponding to the transmission mode of carrier i, C_(i)=1 forsingle codeword transmission mode and C_(i)=2 for multi-codewordtransmission mode is, M_(i) refers to the total number of downlinksub-frame performing ACK/NACK feedback on the same uplink sub-frame oncarrier i, which is decided by uplink/downlink configuration of carrieri. As for downlink carrier and/or downlink is sub-frame position withoutscheduling in the AK/NACK codebook, NACK/DTX (DiscontinuousTransmission) will be generated as feedback information.

TABLE 1 Downlink Association Set Index K: {k₀, k₁, . . . k_(M-1)} forTDD Uplink/ Downlink config- Sub-frame number n uration 0 1 2 3 4 5 6 78 9 0 — — 6 — 4 — — 6 — 4 1 — — 7, 6 4 — — — 7, 6 4 — 2 — — 8, 7, 4, 6 —— — — 8, 7, — — 4, 6 3 — — 7, 6, 11 6, 5 5, 4 — — — — — 4 — — 12, 8, 7,11 6, 5, — — — — — — 4, 7 5 — — 13, 12, 9, 8, — — — — — — — 7, 5, 4, 11,6 6 — — 7 7 5 — — 7 7 —

In order to support larger ACK/NACK codebook transmission, LTE-A systemdefines a new PUCCH (Physical Uplink Control Channel) transmissionformat PUCCH format 3. It at most supports 20 bits ACK/NACK feedback, asshown in FIG. 1. When the ACK/NACK information to be fed back by UEexceeds the aforementioned threshold, bundling shall be performed onACK/NACK information, to make the codebook smaller than or equal to theaforementioned threshold, such as Spatial Bundling, Time-Domain Bundlingor Frequency-Domain Bundling. PUCCH format 3 adopts different codingmethods for different ACK/NACK codebooks. When ACK/NACK codebook is lessthan or equal to 11 bits, the RM (Reed-Muller) encoding of Rel-8(Release-8) system is reused, viz. the ACK/NACK feedback bits shall beencoded into 48-bit coded bits through RM(32,O)+Repetition encodingmethod; when ACK/NACK codebook is larger than 11 bits, Dual-RM encodingmethod is adopted, as shown in FIG. 2, first the ACK/NACK feedback bitsshall be divided into two groups averagely, then the ACK/NACK feedbackbits of each group shall be encoded into 24-bit coded bits by adoptingRM (32, O)+(Truncation) encoding method.

PUCCH power control in LTE-A system shall follow the power controlmethod of LTE Rel-8/9 system as much as possible. The formula ofdefining PUCCH power control is as below:

$\begin{matrix}{{P_{PUCCH}(i)} = {\min {\begin{Bmatrix}{{P_{{CMAX},c}(i)},} \\{P_{0{\_ PUCCH}} + {PL}_{C} + {h\left( {n_{CQI},n_{HARQ},n_{SR}} \right)} + {\Delta_{F\_ PUCCH}(F)} + {\Delta_{T \times D}\left( F^{\prime} \right)} + {g(i)}}\end{Bmatrix}\mspace{14mu}\left\lbrack {{dB}\; m} \right\rbrack}}} & (1)\end{matrix}$

Wherein: P_(CMAX,c) is the allowable maximum transmit power of carrierc, viz. for PUCCH it is the allowable maximum transmit power of theprimary uplink carrier; PL_(c) refers to path loss compensation value ofcarrier c, which is obtained by downlink carrier measurement of higherlayer configuration;

P_(O) _(—) _(PUCCH) represents the target value of transmit power,composed of cell-specific part P_(O) _(—) _(NOMINAL) _(—) _(PUCCH) andUE-specific part P_(O) _(—) _(UE) _(—) _(PUCCH) of higher layerconfiguration; h(n_(CQI), n_(HARQ), n_(SR)) refers to the power offsetcorresponding to the number of various bits sent by PUCCH; wherein,n_(CQI) corresponds to the number of CSI (Channel State Information) bitsent, CSI includes CQI (Channel Quality Indicator) information, PMI(Precoding Matrix Indicator) information, RI (Rank Indication)information, PTI (Precoding Type Indicator) information, etc., n_(HARQ)corresponds to the number of ACK/NACK bit sent, and n_(SR){0,1}represents whether SR (Scheduling Request) transmission exists in thecurrent uplink sub-frame; Configured by higher layer, Δ_(F) _(—)_(PUCCH)(F) represents the power offset of different PUCCH formatsrelative to the PUCCH format 1a, the PUCCH formats include PUCCH format1/1a/1b/2/2a/2b, PUCCH format 3 and other various formats, which is afurther compensation to h(n_(CQI), n_(HARQ), n_(SR)) power controlerror; Δ_(TxD)(F′) is configured by higher layer, with independentconfiguration for each to PUCCH format, representing the power offset ofdifferent PUCCH formats with multi-antenna port transmission (viz.transmission diversity in Rel-10) mode; g(i) is the accumulation of thepower control commands.

Among all parameters mentioned in formula (1), the value of h(n_(CQI),n_(HARQ), n_(SR)) can be:

h(n_(CQI), n_(HARQ), n_(SR))=0 for PUCCH format 1a/1b;

As for PUCCH format 1b with channel selection (PUCCH format 1b based onchannel selection), if multiple carriers are configured for UE,

${{h\left( {n_{CQI},n_{HARQ},n_{SR}} \right)} = \frac{\left( {n_{HARQ} - 1} \right)}{2}},$

if only one carrier is configured for UE, h(n_(CQI), n_(HARQ),n_(SR))=0;

For PUCCH format 2/2a/2b,

${h\left( {n_{CQI},n_{HARQ},n_{SR}} \right)} = \left\{ \begin{matrix}{10\; {\log_{10}\left( \frac{n_{CQI}}{4} \right)}} & {{{if}\mspace{14mu} n_{CQI}} \geq 4} \\0 & {otherwise}\end{matrix} \right.$

with normal CP (Cyclic Prefix) and

${h\left( {n_{CQI},n_{HARQ},n_{SR}} \right)} = \left\{ \begin{matrix}{10\; {\log_{10}\left( \frac{n_{CQI}}{4} \right)}} & {{{{if}\mspace{14mu} n_{CQI}} + n_{HARQ}} \geq 4} \\0 & {otherwise}\end{matrix} \right.$

with extended CP;

As for PUCCH format 3,

${h\left( {n_{CQI},n_{HARQ},n_{SR}} \right)} = {\frac{n_{HARQ} + n_{SR} - 1}{2}.}$

As the ACK/NACK codebook determined by UE based on its own configurationis always larger than the number of data package actually received byUE, esp. when multiple carriers are configured for UE, but eNB onlyschedules few or one carrier/sub-frame, the number of effective ACK/NACKbits (ACK/NACK codebook corresponding to the data packages actuallyreceived by UE or those with actual scheduling) in the ACK/NACK codebookis much less than the total bit number of the ACK/NACK codebook, and eNBcan only detect the effective information part according to detailscheduling status, to improve detection performance, therefore,h(n_(CQI), n_(HARQ), n_(SR)) shall be calculated based on the effectivecodebook of UE: for ACK/NACK transmission without bundling scheme, it isagreed that n_(HARQ) is determined basded on number of the TB (TransportBlock) actually received by UE to and the number of the PDCCH indicatingdownlink SPS (Semi-Persistent Scheduling) resource release, so as toguarantee that the transmit power of UE in PUCCH corresponds to thenumber of downlink carrier and downlink sub-frame with actualscheduling, thus avoiding power waste; as for ACK/NACK transmission withbundling, the number of bits of bundled information actually transmittedby UE is smaller than the number of the TB actually received, son_(HARQ) shall be determined in accordance with the bundled codebook, toavoid UE power waste and reduce interference.

In the procedure of realizing the objects of the present invention, atleast the following problems existing in the current technologies werefound:

Considering that PUCCH format 3 adopts different RM encoding mode underdifferent ACK/NACK codebooks, when ACK/NACK codebook is larger than 11bits, ACK/NACK feedback information shall be divided into two groups,due to the randomization of eNB scheduling, the effective ACK/NACK bitsin the ACK/NACK codebook cannot be certainly divided to each groupuniformly, therefore ACK/NACK effective encoding rate of each group ofRM encoding is different, thus reducing ACK/NACK detection performance.As shown in FIG. 3, when ACK/NACK codebook[b0, b1, . . . b11] is dividedinto two groups at the middle position of the codebook, all 6 bits ingroup I [b0, b1, . . . b5] are effective information, which means thatthe effective encoding rate is 6/24, in group II [b6, b7, . . . b11],only b6 and b7 are effective information and other bits refer tooccupation information generated by UE, which means that the effectiveencoding rate is 2/24, thus reducing the overall ACK/NACK transmissionperformance. Grouping is not required for single-RM encoding, soperformance reduction due to unbalanced effective information groupingdoes not exist.

Besides, PUCCH format 3 supports multi-antenna port transmission mode,and 2 antenna ports in Rel-10 adopts SORTD (Spatial Orthogonal ResourceTransmit Diversity) as the transmission diversity scheme. Differences oftransmission performance exist in SORTD and single-antenna porttransmission.

It can thus be seen that, PUCCH format 3 adopts single-RM and Dual-RM tocause differences on transmission performance of different number ofeffective bits, and PUCCH format 3 also adopts a single-antenna porttransmission mode and a multi-antenna port transmission mode to causedifferences on transmission is performance of different number ofeffective bits. The existing technologies have not yet proposedsolutions of improving ACK/NACK transmission performance by improvingaccuracy of power control specific to such differences.

SUMMARY OF THE PRESENT INVENTION

The present invention is to put forward an uplink power control method,power control parameter configuration method and apparatus thereof, soas to increase the accuracy of power control, thus improving thetransmission performance of uplink control information. Therefore, theembodiments of the present invention adopt the following technicalsolutions:

An uplink power control method, comprising:

A user equipment receives data in M downlink sub-frames of N downlinkcarriers and generates uplink control information, wherein N≧1, M≧1, andthe uplink control information of the M downlink sub-frames istransmitted in one uplink sub-frame; The user equipment determines Δ_(F)_(—) _(PUCCH)(F) and h(n) for calculating the transmit power of aphysical uplink control channel (PUCCH) according to whether the numberof bits of the uplink control information is larger than a predefinedthreshold; wherein, the Δ_(F) _(—) _(PUCCH)(F) represents the poweroffset of PUCCHs in different formats relative to PUCCH format 1a, andthe h(n) represents the power offset corresponding to the number oftransmission bits of the PUCCH;

The user equipment calculates the PUCCH transmit power according to thedetermined Δ_(F) _(—) _(PUCCH)(F) and h(n), and sends the generateduplink control information on the PUCCH using the calculated transmitpower.

A user equipment, comprising:

Receiving module, used for receiving data in M downlink sub-frames of Ndownlink carriers; wherein N≧1 and M≧1;

Control information generation module, used for generating uplinkcontrol information of the M downlink sub-frames that can be transmittedin one uplink sub-frame; Power control module, used to determine Δ_(F)_(—) _(PUCCH)(F) and h(n) for calculating is PUCCH transmit poweraccording to whether the number of bits of the uplink controlinformation generated based on the control information generation moduleis larger than a predefined threshold, and calculates the transmit powerused to send the uplink control information on PUCCH based on thedetermined Δ_(F) _(—) _(PUCCH)(F) and h(n); wherein, the Δ_(F) _(—)_(PUCCH)(F) represents the power offset of PUCCHs in different formatsrelative to PUCCH format 1a, and the h(n) represents the power offsetcorresponding to the number of transmission bits of the PUCCH;

Sending module, used for sending the generated uplink controlinformation on PUCCH by applying the calculated transmit power.

A power control parameter configuration method, comprising:

Network side configures Δ_(F) _(—) _(PUCCH)(F) parameter of PUCCHtransmit power to user equipment, and the Δ_(F) _(—) _(PUCCH)(F)represents the power offset of PUCCHs in different formats relative toPUCCH format 1a;

Network side receives the uplink control information sent by the userequipment on PUCCH, wherein PUCCH transmit power is determined by theuser equipment according to the Δ_(F) _(—) _(PUCCH)(F) configured.

A network equipment, comprising:

Configuration module, used for configuring Δ_(F) _(—) _(PUCCH)(F)parameter of PUCCH transmit power to user equipment, and the Δ_(F) _(—)_(PUCCH)(F) represents the power offset of PUCCHs in different formatsrelative to PUCCH format 1a;

Receiving module, used for receiving the uplink control information sentby the user equipment on PUCCH, wherein PUCCH transmit power isdetermined by the user equipment according to the Δ_(F) _(—) _(PUCCH)(F)configured.

Among the aforementioned embodiments of the present invention, userequipment can determine Δ_(F) _(—) _(PUCCH)(F) and h(n) for calculatingPUCCH transmit power according to whether the number of bits of theuplink control information is larger than a predefined threshold, andthen calculate PUCCH transmit power, so as to guarantee user equipmentsends data according to proper power, avoid power waste, improve powerutilization of user equipment and increase the accuracy of powercontrol, thus improving the transmission performance of uplink controlinformation.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is the structure diagram of PUCCH format 3 transmission withnormal CP in current technology;

FIG. 2 is the structure diagram of Dual-RM encoding in currenttechnology;

FIG. 3 is the diagram of scheduling in current technology;

FIG. 4 is the flow diagram of uplink power control provided in theembodiments of the present invention;

FIG. 5 is the flow diagram of uplink power control under Scene I in theembodiments of the present invention;

FIG. 6 is the flow diagram of uplink power control under Scene II in theembodiments of the present invention;

FIG. 7 is the structure diagram of power control apparatus provided inthe embodiments of the present invention;

FIG. 8 is the structure diagram of user equipment provided in theembodiments of the present invention;

FIG. 9 is the structure diagram of network equipment provided in theembodiments of the present invention.

DETAILED DESCRIPTION OF THE EMBODIMENTS OF THE PRESENT INVENTION

As described in background technology, PUCCH format 3 has been definedas a multiplexing transmission scheme of ACK/NACK in LTE-A system. PUCCHformat 3 adopts sing-RM and Dual-RM to cause differences on transmissionperformance of different number of effective bits, while for ACK/NACKfeedback, h(n_(CQI), n_(HARQ), n_(SR)) function calculates the powerbased on the codebook corresponding to TB actually received by UE. Itcan thus be seen that, in the two cases that when the codebook is largerthan 11 bits or smaller than or equal to 11 bits, different h(n_(CQI),n_(HARQ), n_(SR)) functions shall be adopted for power control, so as toincrease the accuracy of power control. As the compensation ofh(n_(CQI), n_(HARQ), n_(SR)) function for power control of differentnumber of bits, Δ_(F) _(—) _(PUCCH)(F) shall also be independentlyconfigured for the two situations with the codebook larger than 11 bitsor not larger than 11 bits. Moreover, the transmission performance alsovaries when PUCCH adopts a single-antenna port mode or a multi-antennaport mode(refer to transmission diversity in LTE-A Rel-10, viz. SORTDscheme) to transmit ACK/NACK, which means that different h(n_(CQI),n_(HARQ), n_(SR)) functions are also required. Specific to theaforementioned problems, the embodiments of the present invention putforward a scheme of selecting PUCCH power control parameter based onACK/NACK codebook.

The technical solutions in the present invention are explained in adetailed way with reference to the drawings in the present invention.

As shown in FIG. 4, in LTE-A system, when at least one downlink carrieris configured for UE, the power control process of physical uplinkcontrol channel (such as PUCCH) may comprise the following if UE sendsuplink control information in PUCCH:

Step 401, UE receives data in M downlink sub-frames of N downlinkcarriers and generates uplink control information, wherein N≧1, M≧1, andthe uplink control information of the M downlink sub-frames istransmitted in one uplink sub-frame. Therein, uplink control informationcan include one or several kinds of ACK/NACK feedback information, CSI,SR information, etc. The CSI information also comprises one or severalkinds of CQI, PMI, RI, PTI, etc., uplink control information can bebundled feedback information and bundling mode can be Spatial Bundling,Time-Domain Bundling, or others. When uplink control information isACK/NACK, the number of bits can be determined in accordance with thenumber of downlink carrier configured, transmission mode of eachdownlink carrier configured and the number of downlink sub-framerequiring ACK/NACK feedback corresponding to one uplink sub-frame; thenumber of bits of uplink control information can also be the number ofbits of bundled ACK/NACK feedback information after bundling.

Step 402, UE determines proper Δ_(F) _(—) _(PUCCH)(F) and h(n_(CQI),n_(HARQ), n_(SR)) which are used to calculate the transmit power of aphysical uplink control channel (PUCCH) according to whether the numberof bits of the uplink control information is larger than the threshold Lbits, the Δ_(F) _(—) _(PUCCH)(F) represents the power offset ofdifferent PUCCH formats relative to the PUCCH format 1a, and theh(n_(CQI), n_(HARQ), n_(SR)) represents the power offset correspondingto the number of transmission bits of the PUCCH. For excellent ones,threshold L can be 11.

To be specific, UE can adopt the following methods to determine Δ_(F)_(—) _(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR)) functions according towhether the number of bits of the uplink control information is largerthan the threshold L bits:

(1) If the number of bits of uplink control information generated is notlarger than L bits, RM(32,O)+repetition encoding method will be adopted,and UE will determine to adopt the Δ_(F) _(—) _(PUCCH)(F) and h(n_(CQI),n_(HARQ), n_(SR)) functions corresponding to RM encoding method forcalculating PUCCH transmit power. As for ACK/NACK transmission,optimized, there are Δ_(F) _(—) _(PUCCH)(F)ε{−1,0,1,2} dB and h(n_(CQI),n_(HARQ), n_(SR))=0.5·(n_(HARQ)+n_(SR))−1.3.

(2) If the number of bits of uplink control information generated islarger than L bits, Dual-RM encoding method will be adopted, and UE willdetermine to adopt the Δ_(F) _(—) _(PUCCH)(F) and h(n_(CQI), n_(HARQ),n_(SR)) functions corresponding to Dual-RM encoding method forcalculating PUCCH transmit power. As for ACK/NACK transmission,optimized, there are Δ_(F) _(—) _(PUCCH)(F)ε{2,3,4,5} dB or Δ_(F) _(—)_(PUCCH)(F)ε{3,4,5,6} dB and h(n_(CQI), n_(HARQ),n_(SR))=0.25·(n_(HARQ)+n_(SR))−0.75.

It should be noted that, in case of combination with PUCCH transmissionmode, under one PUCCH transmission mode, the corresponding h(n_(CQI),n_(HARQ), n_(SR)) functions may be identical or different when thenumber of bits of the uplink control is information is not larger thanand larger than L bits. For example, under single-antenna porttransmission mode, the corresponding h(n_(CQI), n_(HARQ), n_(SR))functions are different when the number of bits of the uplink controlinformation is not larger than and larger than L bits, while undermulti-antenna port transmission mode, the corresponding h(n_(CQI),n_(HARQ), n_(SR))) functions are identical when the number of bits ofthe uplink control information is not larger than and larger than Lbits; the corresponding Δ_(F) _(—) _(PUCCH)(F) values may be identicalor different when the number of bits of the uplink control informationis not larger than and larger than L bits.

Therein, Δ_(F) _(—) _(PUCCH)(F) can be configured in the followingmethods:

Method (1): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₂(F) to respectively represent the Δ_(F) _(—) _(PUCCH)(F)parameter value when the number of bits of the uplink controlinformation is not larger than and larger than L bits; correspondingly,UE can select Δ_(F) _(—) _(PUCCH) _(—) ₁(F) when the number of bits ofthe uplink control information is not larger than the threshold L bitsand select Δ_(F) _(—) _(PUCCH) _(—) ₂(F) when it is larger thanthreshold L bits. Therein, when uplink control information is ACK/NACK,optimized, there are Δ_(F) _(—) _(PUCCH) _(—) ₁(F)ε{−1,0,1,2} dB, Δ_(F)_(—) _(PUCCH) _(—) ₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH) _(—)₂(F)ε{3,4,5,6}.

Method (2): First higher layer signalling pre-configures a Δ_(F) _(—)_(PUCCH)(F) value, and the rest Δ_(F) _(—) _(PUCCH)(F) values shall beobtained based on the pre-configured Δ_(F) _(—) _(PUCCH)(F) value andone δ value, wherein δ refers to the predefined offset or the offsetpre-configured by higher layer signalling; for example: higher layersignalling pre-configures a Δ_(F) _(—) _(PUCCH) _(—) ₁(F) value torepresent the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value whenthe number of bits of uplink control information is not larger than Lbits, and the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₂(F) when it islarger than L bits is obtained according to pre-configured or predefinedoffset δ based on Δ_(F) _(—) _(PUCCH) _(—) ₁(F), viz Δ_(F) _(—) _(PUCCH)_(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F)+δ. Therein, when uplink controlinformation is ACK/NACK, optimized, there is Δ_(F) _(—) _(PUCCH) _(—)₁(F)ε{−1,0,1,2} dB, and the value of δ can make Δ_(F) _(—) _(PUCCH) _(—)₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH) _(—) ₂(F)ε{3,4,5,6}. Optimized,δ=3 or 4. Correspondingly, UE can select Δ_(F) _(—) _(PUCCH) _(—) ₁(F)when the number of bits of uplink control information is not larger thanthreshold L bits and adopts Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—)_(PUCCH) _(—) ₁(F)+δ when it is larger than threshold L bits.Especially, δ can also be 0, that is, whether the number of bits ofuplink control information is larger than threshold L bits, adopt thesame Δ_(F) _(—) _(PUCCH)(F) parameter value, then δ cannot bepre-configured or predefined, and base station can select a proper valuefrom the set {−1,0,1,2 3,4,5,6} of Δ_(F) _(—) _(PUCCH)(F) and directlyconfigure it to UE through higher layer signalling to be as the Δ_(F)_(—) _(PUCCH)(F) parameter value corresponding to PUCCH format3.

Step 403: UE calculates the transmit power of a physical uplink controlchannel (such as PUCCH) according to the determined Δ_(F) _(—)_(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR)), and adopts the calculatedtransmit power to send the uplink control information determined in step401 on the PUCCH.

Therein, the PUCCH channel can be either the PUCCH format 1b channelwhich is used in PUCCH format 1b with channel selection transmissionscheme; or the channel which is used in the transmission scheme based onthe combination of DFT-S-OFDM (Discrete FourierTransform-Spread-Orthogonal Frequency Division Multiplexing) andtime-domain spreading, such as PUCCH format 3 channel.

In another embodiment of the present invention, the differences with theflow presented in FIG. 4 are: based on step 402, UE can furtherdetermine Δ_(F) _(—) _(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR))functions according to PUCCH transmission mode, viz. the specificprocesses of UE determining proper Δ_(F) _(—) _(PUCCH)(F) and h(n_(CQI),n_(HARQ), n_(SR)) functions according to whether the number of bits ofuplink control information is larger than the threshold L bitscomprises:

(1) When the number of bits of uplink control information is not largerthan L bits: When PUCCH transmits information by single-antenna porttransmission mode, UE determines the Δ_(F) _(—) _(PUCCH)(F) andh(n_(CQI), n_(HARQ), n_(SR)) functions corresponding to RM encodingmethod under single-antenna port transmission mode for calculating PUCCHtransmit power. As for ACK/NACK transmission, optimized, there are Δ_(F)_(—) _(PUCCH)(F)ε{−1,0,1,2} dB and h(n_(CQI), n_(HARQ),n_(SR))=0.5·(n_(HARQ)+n_(SR))−1.3.

When PUCCH transmits information by multi-antenna port transmission mode(in LTE-A Rel-10 system, refer to transmitting diversity transmissionmode, viz. 2 antenna port transmission), UE determines the Δ_(F) _(—)_(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR)) functions corresponding toRM encoding method under multi-antenna port transmission mode forcalculating PUCCH transmit power. As for ACK/NACK transmission,optimized, there are Δ_(F) _(—) _(PUCCH)(F)ε{−1,0,1,2} dB or Δ_(F) _(—)_(PUCCH)(F)ε{−2,−1,0,1} dB and h(n_(CQI), n_(HARQ), n_(SR))=0.35(n_(HARQ)+n_(SR))−0.6.

(2) When the number of bits of uplink control information is larger thanL bits: When PUCCH transmits information by single-antenna porttransmission mode, UE determines the Δ_(F) _(—) _(PUCCH)(F) andh(n_(CQI), n_(HARQ), n_(SR)) functions corresponding to Dual-RM encodingmethod under single-antenna port transmission mode for calculating PUCCHtransmit power. As for ACK/NACK transmission, optimized, there are Δ_(F)_(—) _(PUCCH)(F)ε{3,4,5,6} dB and h(n_(CQI), n_(HARQ),n_(SR))=0.3·(n_(HARQ)+n_(SR))−1.5.

When PUCCH transmits information by multi-antenna port transmission mode(in LTE-A Rel-10 system, refer to transmitting diversity transmissionmode, viz. 2 antenna port transmission), UE determines the Δ_(F) _(—)_(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR)) is functions correspondingto Dual-RM encoding method under multi-antenna port transmission modefor calculating PUCCH transmit power. As for ACK/NACK transmission,optimized, there are Δ_(F) _(—) _(PUCCH)(F)ε{2,3,4,5} dB or Δ_(F) _(—)_(PUCCH)(F)ε{3,4,5,6} dB and h(n_(CQI), n_(HARQ),n_(SR))=0.25·(n_(HARQ)+n_(SR))−0.75.

For the two conditions of whether the number of bits of uplink controlinformation is larger than L bits, PUCCH transmission mode can bedistinguished independently, viz. only further distinguishing PUCCHtransmission mode for the condition that the number of bits of uplinkcontrol information is not larger than L bits, or only furtherdistinguishing PUCCH transmission mode for the condition that the numberof bits of uplink control information is larger than L bits, orsimultaneously further distinguishing PUCCH transmission modes for theconditions that the number of bits of uplink control information is bothnot larger than and larger than L bits. Therein, configuration mode ofΔ_(F) _(—) _(PUCCH)(F) can follow method (1) and method (2) in step 402above, viz. only configuring Δ_(F) _(—) _(PUCCH)(F) when the number ofbits of uplink control information is not larger than and larger than Lbits, adopting the same Δ_(F) _(—) _(PUCCH)(F) value for the number ofbits of the same uplink control information under multi-antenna andsingle-antenna port transmission modes; or the following methods areapplicable:

When PUCCH transmission mode is further distinguished only for thecondition when the number of bits of uplink control information issmaller than or equal to L rather than the condition when it is largerthan L, viz. the same Δ_(F) _(—) _(PUCCH)(F) value is applied in bothsingle-antenna and multi-antenna port transmission modes when the numberof bits of uplink control information is larger than L, the followingΔ_(F) _(—) _(PUCCH)(F) configuration methods can be adopted:

Method (3): Higher layer signalling pre-configures three Δ_(F) _(—)_(PUCCH)(F) values to respectively represent the Δ_(F) _(—) _(PUCCH)(F)parameter values corresponding to single-antenna port transmission modeand multi-antenna port transmission mode when the number of bits ofuplink control information is smaller than or equal to L, as well as thecorresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when it is largerthan L, for example:

Higher layer signalling pre-configures three Δ_(F) _(—) _(PUCCH)(F)values: Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₂(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F), wherein: Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F) refers to the Δ_(F) _(—) _(PUCCH)(F) parametervalue corresponding to single-antenna port transmission mode when thenumber of bits of uplink control information is smaller than or equal toL; as for ACK/NACK transmission, optimized, there is Δ_(F) _(—) _(PUCCH)_(—) ₁ _(—) ₁(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) represents the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to multi-antenna porttransmission mode when the number of bits of uplink control informationis smaller than or equal to L; as for ACK/NACK transmission, optimized,there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)ε{−1,0,1,2} dB or Δ_(F)_(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−2,−1,0,1} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂(F) stands for the Δ_(F) _(—) _(PUCCH)(F)corresponding parameter value when the number of bits of uplink controlinformation is larger than L, viz. not distinguishing PUCCH transmissionmode when the number of bits of uplink control information is largerthan L, and adopting the same Δ_(F) _(—) _(PUCCH)(F) value forsingle-antenna and multi-antenna port transmission modes; as forACK/NACK transmission, optimized, there is Δ_(F) _(—) _(PUCCH) _(—)₂(F)ε{3,4,5,6} dB;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Besides, method (3) can also be evolved into the mode that higher layersignalling only configures part Δ_(F) _(—) _(PUCCH)(F) (at least one)parameter value(s), with other parameter values obtained based on thepredefined offset or the offset is pre-configured by higher layer, viz.:

Higher layer signalling can pre-configure two Δ_(F) _(—) _(PUCCH)(F)s torespectively represent two of the Δ_(F) _(—) _(PUCCH)(F) parametervalues corresponding to single-antenna port transmission mode andmulti-antenna port transmission mode when the number of bits of uplinkcontrol information is smaller than or equal to L, and the correspondingΔ_(F) _(—) _(PUCCH)(F) parameter values when it is larger than L, withthe rest Δ_(F) _(—) _(PUCCH)(F) parameter values obtained according topre-configured or predefined offset based on the configured Δ_(F) _(—)_(PUCCH)(F) parameter values, for example:

Method (3-1): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₂(F), wherein:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) refers to the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to single-antenna porttransmission mode when the number of bits of uplink control informationis smaller than or equal to L; for ACK/NACK transmission, optimized,there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂(F) represents the corresponding Δ_(F) _(—)_(PUCCH)(F) parameter value when the number of bits of uplink controlinformation is larger than L, viz. not distinguishing PUCCH transmissionmode when the number of bits of uplink control information is largerthan L, and adopting the same Δ_(F) _(—) _(PUCCH)(F) value forsingle-antenna and multi-antenna port transmission modes; as forACK/NACK transmission, optimized, there is Δ_(F) _(—) _(PUCCH) _(—)₂(F)ε{3,4,5,6} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F); theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to multi-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to L, it can be obtained accordingto pre-configured or predefined offset δ₁ based on Δ_(F) _(—) _(PUCCH)_(—) ₁ _(—) ₁(F) or Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F); viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₁; or Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH)_(—) ₂(F)+δ₁;

Therein, the value of δ₁ can lead to Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F)ε{−1,0,1,2} dB or Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−2,−1,0,1}dB, with specific value of 0 or −1; esp. when eNB and UE predefine toadopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value for bothsingle-antenna and multi-antenna port transmission modes, there is δ₁=0,viz. Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₁(F), or, when eNB and UE predefine to adopt the same Δ_(F) _(—)_(PUCCH)(F) parameter value when the number of bits of uplink controlinformation is both smaller than or equal to L and larger than L, δ₁=0,viz. Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₂(F); δ₁ cannot be pre-configured or predefined;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Method (3-2): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F), wherein:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) refers to the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to single-antenna porttransmission mode when the number of bits of uplink control informationis smaller than or equal to L; as for ACK/NACK transmission, optimized,there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) represents the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to multi-antenna porttransmission mode when the number of bits of uplink control informationis smaller than or equal to L; as for ACK/NACK transmission, optimized,there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−1,0,1,2} dB or Δ_(F)_(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−2,−1,0,1} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₂(F), thecorresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when the number ofbits of uplink control information is larger than L, it can be obtainedaccording to pre-configured or predefined offset δ₁ based on Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F) or Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₂(F) Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)+δ₁,or Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F)+δ₁;

Therein, the value of δ₁ can lead to Δ_(F) _(—) _(PUCCH) _(—)₂(F)ε{3,4,5,6} dB, with specific value of 3 or 4; esp. when eNB and UEpredefine to adopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value forthe conditions when the number of bits of uplink control information isboth larger than L and smaller than or equal to L, there is δ₁=0, viz.Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F), or Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F), and δ₁ cannot be pre-configured or predefined;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Moreover, higher layer signalling can also pre-configure one Δ_(F) _(—)_(PUCCH)(F) to represent one of the Δ_(F) _(—) _(PUCCH)(F) parametervalues corresponding to single-antenna port transmission mode andmulti-antenna port transmission mode when the number of bits of uplinkcontrol information is smaller than or equal to L, and the correspondingΔ_(F) _(—) _(PUCCH)(F) parameter values when it is larger than L, withthe rest Δ_(F) _(—) _(PUCCH)(F) parameter values obtained according topre-configured or predefined offset based on the configured Δ_(F) _(—)_(PUCCH)(F) parameter values, for example:

Method (3-3): Higher layer signalling pre-configures one Δ_(F) _(—)_(PUCCH)(F) value, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), to representthe Δ_(F) _(—) _(PUCCH)(F) parameter value corresponding tosingle-antenna port transmission mode when the number of bits of uplinkcontrol information is smaller than or equal to L; as for ACK/NACKtransmission, optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)ε{−1,0,1,2} dB;

Therein, When UE determines Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to multi-antennaport transmission mode when the number of bits of is uplink controlinformation is smaller than or equal to L, and Δ_(F) _(—) _(PUCCH) _(—)₂(F), the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when itis larger than L, it can be obtained according to pre-configured orpredefined offset δ₁ and δ₂ based on

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₁;

Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)+δ₂;

Therein, δ₁ and δ₂ can be either identical or different. The value of δ₁can lead to Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{1,0,1,2} dB or Δ_(F)_(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−2,−1,0,1} dB, with specific value of 0or −1; esp. when eNB and UE predefine to adopt the same Δ_(F) _(—)_(PUCCH)(F) parameter value for both single-antenna and multi-antennaport transmission modes, there is δ₁=0, viz. Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), and δ₁ cannot bepre-configured or predefined; the value of δ₂ can lead to Δ_(F) _(—)_(PUCCH) _(—) ₂(F)ε{3,4,5,6}, with specific value of 3 or 4; esp. wheneNB and UE predefine to adopt the same Δ_(F) _(—) _(PUCCH)(F) parametervalue when the number of bits of uplink control information is bothlarger than L and smaller than or equal to L, there is δ₂=0, viz. Δ_(F)_(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), and δ₂cannot be pre-configured or predefined; esp. when eNB and UE predefineto adopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value under bothsingle-antenna and multi-antenna port transmission modes when the numberof bits of uplink control information is both larger than L and smallerthan or equal to L, there are δ₁=0 and δ₂=0, viz. Δ_(F) _(—) _(PUCCH)_(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—)₁ _(—) ₁(F), δ₁ and δ₂ cannot be pre-configured and predefined. Basestation can select a proper value from the set {−1,0,1,2,4,5,6} of Δ_(F)_(—) _(PUCCH)(F) and directly configure it to UE through higher layersignalling to be as the Δ_(F) _(—) _(PUCCH)(F) parameter valuecorresponding to PUCCH format3.

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

When PUCCH transmission mode is further distinguished only for thecondition when the number of bits of uplink control information islarger than L rather than the condition when it is smaller than or equalto L, viz. the same Δ_(F) _(—) _(PUCCH)(F) value is applied in bothsingle-antenna and multi-antenna port transmission modes, the followingΔ_(F) _(—) _(PUCCH)(F) configuration method can be adopted:

Method (4): Higher layer signalling pre-configures three Δ_(F) _(—)_(PUCCH)(F) values to respectively represent the corresponding Δ_(F)_(—) _(PUCCH)(F) parameter values when the number of bits of uplinkcontrol information is smaller than or equal to L, and the Δ_(F) _(—)_(PUCCH)(F) parameter values corresponding to single-antenna porttransmission mode and multi-antenna port transmission mode when it islarger than L, for example:

Higher layer signalling pre-configures three Δ_(F) _(—) _(PUCCH)(F)values: Δ_(F) _(—) _(PUCCH) _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), wherein: Δ_(F) _(—)_(PUCCH) _(—) ₁(F) refers to the corresponding Δ_(F) _(—) _(PUCCH)(F)parameter values when the number of bits of uplink control informationis smaller than or equal to L, viz. not distinguishing PUCCHtransmission mode when the number of bits of uplink control informationis smaller than or equal to L, adopting the same Δ_(F) _(—) _(PUCCH)(F)value for both single-antenna and multi-antenna port transmission modes;as for ACK/NACK transmission, optimized, there is Δ_(F) _(—) _(PUCCH)_(—) ₁(F)ε{−1,0,1,2} dB; Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) representsthe Δ_(F) _(—) _(PUCCH)(F) parameter value corresponding tosingle-antenna port transmission mode when the number of bits of uplinkcontrol information is larger than L; as for ACK/NACK transmission,optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)ε{3,4,5,6} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) represents the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to multi-antenna porttransmission mode when the number of bits of uplink control informationis larger than L; as for ACK/NACK transmission, optimized, there isΔ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₂(F)ε{3,4,5,6} dB;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Besides, method (4) can also be evolved into the mode that higher layersignalling only configures part Δ_(F) _(—) _(PUCCH)(F) (at least one)parameter value(s), with other parameter values obtained based on theoffset predefined or the offset pre-configured by higher layer, viz.:

Higher layer signalling can pre-configure two Δ_(F) _(—) _(PUCCH)(F) sto respectively represent two of the corresponding Δ_(F) _(—)_(PUCCH)(F) parameter values when the number of bits of uplink controlinformation is smaller than or equal to L, and the Δ_(F) _(—)_(PUCCH)(F) parameter values corresponding to single-antenna porttransmission mode and multi-antenna port transmission mode when it islarger than L, with the Δ_(F) _(—) _(PUCCH)(F) parameter values obtainedaccording to pre-configured or predefined offset based on the configuredΔ_(F) _(—) _(PUCCH)(F) parameter values, for example:

Method (4-1): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₁(F), wherein:

Δ_(F) _(—) _(PUCCH) _(—) ₁(F) refers to the corresponding Δ_(F) _(—)_(PUCCH)(F) parameter values when the number of bits of uplink controlinformation is smaller than or equal to L, viz. not distinguishing PUCCHtransmission mode when the number of bits of uplink control informationis smaller than or equal to L, and adopting the same Δ_(F) _(—)_(PUCCH)(F) value for both single-antenna and multi-antenna porttransmission is modes; as for ACK/NACK transmission, optimized, there isΔ_(F) _(—) _(PUCCH) _(—) ₁(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) represents Δ_(F) _(—) _(PUCCH)(F)parameter values corresponding to single-antenna port transmission modeand multi-antenna port transmission mode when the number of bits ofuplink control information is larger than L; as for ACK/NACKtransmission, optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)ε{3,4,5,6} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to multi-antennaport transmission mode when the number of bits of uplink controlinformation is larger than L, it can be obtained according topre-configured or predefined offset δ₁ based on Δ_(F) _(—) _(PUCCH) _(—)₁(F) or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F)+δ₁;or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)+δ₁;

Therein, the value of δ₁ can lead to Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₂(F) ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)ε{3,4,5,6} dB,with specific value of 3 or 4; esp. when eNB and UE predefine to adoptthe same Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bitsof uplink control information is both larger than L and smaller than orequal to L, there is δ₁=0, viz. Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F), or when eNB and UE predefine toadopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value for bothsingle-antenna and multi-antenna port transmission modes, there is δ₁=0,viz. Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂_(—) ₁(F), and δ₁ cannot be pre-configured or predefined;Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Method (4-2): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F) wherein:

Δ_(F) _(—) _(PUCCH) _(—) ₁(F) refers to the corresponding Δ_(F) _(—)_(PUCCH)(F) parameter values when the number of bits of uplink controlinformation is smaller than or equal to L, viz. not distinguishing PUCCHtransmission mode when the number of bits of uplink control informationis smaller than or equal to L, and adopting the same Δ_(F) _(—)_(PUCCH)(F) value for both single-antenna and multi-antenna porttransmission modes; as for ACK/NACK transmission, optimized, there isΔ_(F) _(—) _(PUCCH) _(—) ₁(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) represents the Δ_(F) _(—)_(PUCCH)(F) parameter values corresponding to multi-antenna porttransmission mode when the number of bits of uplink control informationis larger than L; as for ACK/NACK transmission, optimized, there isΔ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₂(F)ε{3,4,5,6} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F), theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to single-antennaport transmission mode when the number of bits of uplink controlinformation is larger than L, it can be obtained according topre-configured or predefined offset δ₁ based on Δ_(F) _(—) _(PUCCH) _(—)₁(F) or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F)+δ₁;or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—1) (F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₂(F)+δ₁;

Therein, the value of δ₁ can lead to Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)ε{3,4,5,6}, with specific value of 3 or 4; esp. when eNB and UEpredefine to adopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value whenthe number of bits of uplink control information is both larger than Land smaller than or equal to L, there is δ₁=0, viz. Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F), or, when eNB and UEpredefine to adopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value forboth single-antenna and multi-antenna port transmission modes, there isδ₁=0, viz. Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—)₂ _(—) ₂(F) and δ₁ cannot be pre-configured or predefined;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold is L bits and the PUCCHtransmission mode.

Besides, higher layer signalling can also pre-configures one Δ_(F) _(—)_(PUCCH)(F) to represent one of the corresponding Δ_(F) _(—) _(PUCCH)(F)parameter values when the number of bits of uplink control informationis smaller than or equal to L, and the Δ_(F) _(—) _(PUCCH)(F) parametervalues corresponding to single-antenna port transmission mode andmulti-antenna port transmission mode when the number of bits of uplinkcontrol information is larger than L, with the rest Δ_(F) _(—)_(PUCCH)(F) parameter values obtained according to pre-configured orpredefined offset based on the configured Δ_(F) _(—) _(PUCCH)(F)parameter values, for example:

Method (4-3): Higher layer signalling pre-configures one Δ_(F) _(—)_(PUCCH)(F) value, Δ_(F) _(—) _(PUCCH) _(—) ₁(F), to represent thecorresponding Δ_(F) _(—) _(PUCCH)(F) parameter values when the number ofbits of uplink control information is smaller than or equal to L, viz.not distinguishing PUCCH transmission mode when the number of bits ofuplink control information is smaller than or equal to L, and adoptingthe same Δ_(F) _(—) _(PUCCH)(F) value for both single-antenna andmulti-antenna port transmission modes; as for AC K/NAC K transmission,optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₁(F)ε{−1,0,1,2} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F), theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to single-antennaport transmission mode, and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)corresponding to multi-antenna port transmission mode when the number ofbits of uplink control information is larger than L, it can be obtainedaccording to pre-configured or predefined offset δ₁ and δ₂ based onΔ_(F) _(—) _(PUCCH) _(—) ₁(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F)+δ₁;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F)+δ₂;

Therein, δ₁ and δ₂ can be either identical or different. The value of δ₁can lead to Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)ε{3,4,5,6}, withspecific value of 3 or 4; the value of δ₂ can lead to Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH) _(—) ₂_(—) ₂(F)ε{3,4,5,6} dB, with specific value of 3 or 4; esp. when eNB andUE predefine to adopt the same Δ_(F) _(—) _(PUCCH)(F) parameter valuefor both single-antenna and multi-antenna port transmission modes, or,when eNB and UE predefine to adopt the same Δ_(F) _(—) _(PUCCH)(F)parameter values when the number of bits of uplink control informationis both larger than L and smaller than or equal to L, there is δ₁=δ₂,viz. Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂_(—) ₂(F)Δ_(F) _(—) _(PUCCH) _(—) ₁(F)+δ₁, only one δ₁ value shall beconfigured or predefined; esp. when eNB and UE predefine to adopt thesame Δ_(F) _(—) _(PUCCH)(F) parameter value for both single-antenna andmulti-antenna port transmission modes when the number of bits of uplinkcontrol information is both smaller than or equal to L and larger thanL, there are δ₁=0 and δ₂=0, viz. Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F),then δ₁ and δ₂ cannot be pre-configured or predefined. Base station canselect a proper value from the set {−1,0,1,2,4,5,6} of Δ_(F) _(—)_(PUCCH)(F) and directly configure it to UE through higher layersignalling to be as the Δ_(F) _(—) _(PUCCH)(F) parameter valuecorresponding to PUCCH format3.

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

When PUCCH transmission mode is distinguished when the number of bits ofuplink control information is both smaller than or equal to L and largerthan L, viz. adopting independent Δ_(F) _(—) _(PUCCH)(F) values forsingle-antenna port transmission mode and multi-antenna porttransmission mode when the number of bits of uplink control informationis both smaller than or equal to L and larger than L, the followingΔ_(F) _(—) _(PUCCH)(F) configuration method can be applied:

Method (5): Higher layer signalling pre-configures four Δ_(F) _(—)_(PUCCH)(F) values to respectively represent the Δ_(F) _(—) _(PUCCH)(F)parameter values and Δ_(F) _(—) _(PUCCH)(F) parameter valuescorresponding to single-antenna port transmission mode and multi-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to L, and when it is larger than L,for example: Higher layer signalling pre-configures four Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) andΔ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), wherein:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) refers to the Δ_(F) _(—)_(PUCCH)(F) parameter values corresponding to single-antenna porttransmission mode when the number of bits of uplink control informationis smaller than or equal to L; as for ACK/NACK transmission, optimized,there is Δ_(F) _(—) _(PUCCH)(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) represents Δ_(F) _(—) _(PUCCH)(F)parameter values corresponding to multi-antenna port transmission modewhen the number of bits of uplink control information is smaller than orequal to L; as for ACK/NACK transmission, optimized, there is Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F)ε{1,0,1,2} dB or Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₂(F)ε{−2,−1,0,1} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) refers to the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to single-antenna porttransmission mode when the number of bits of uplink control informationis larger than L; as for ACK/NACK transmission, optimized, there isΔ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)ε{3,4,5,6} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) represents the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to multi-antenna porttransmission mode when the number of bits of uplink control informationis larger than L; as for ACK/NACK transmission, optimized, there isΔ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₂(F)ε{3,4,5,6} dB;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold is L bits and the PUCCHtransmission mode.

Besides, method (5) can also be evolved into the mode that higher layersignalling only configures part Δ_(F) _(—) _(PUCCH)(F) (at least one)parameter value(s), with other parameter values obtained based on thepredefined offset or the offset pre-configured by higher layer, viz.:Higher layer signalling can pre-configure two Δ_(F) _(—) _(PUCCH)(F) sto respectively represent two of the Δ_(F) _(—) _(PUCCH)(F) parametervalues and the Δ_(F) _(—) _(PUCCH)(F) parameter values corresponding tosingle-antenna port transmission mode and multi-antenna porttransmission mode when the number of bits of uplink control informationis smaller than or equal to L, and when it is larger than L, with otherΔ_(F) _(—) _(PUCCH)(F) parameter values obtained according topre-configured or predefined offset based on the configured Δ_(F) _(—)_(PUCCH)(F) parameter value, for example:

Method (5-1): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH)(F) and Δ_(F) _(—) _(PUCCH) _(—)₂ _(—) ₁(F), wherein: Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) refers to theΔ_(F) _(—) _(PUCCH)(F) parameter values corresponding to single-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to L; as for ACK/NACK transmission,optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)ε{−1,0,1,2} dB;

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) represents Δ_(F) _(—) _(PUCCH)(F)parameter value corresponding to single-antenna port transmission modewhen the number of bits of uplink control information is larger than L;as for ACK/NACK transmission, optimized, there is Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₁(F)ε{3,4,5,6} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to multi-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to L, and Δ_(F) _(—) _(PUCCH) _(—)₂ _(—) ₂(F), the Δ_(F) _(—) _(PUCCH)(F) parameter value corresponding tomulti-antenna port transmission is mode when it is larger than L, it canbe obtained according to pre-configured or predefined offset δ₁ and δ₂based on Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₁(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₁

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)+δ₂;

Therein, δ₁ and δ₂ can be either identical or different. The value of δ₁can lead to Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−1,0,1,2} dB or Δ_(F)_(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−2,−1,0,1} dB, and that of δ₂ can leadto Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) E {2,3,4,5} dB or Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F) E {3,4,5,6}, with specific value of 0 or −1;esp. when eNB and UE predefine to adopt the same Δ_(F) _(—) _(PUCCH)(F)parameter value for both single-antenna and multi-antenna porttransmission modes, that is, δ₁ and/or δ₂ is 0, δ₁ and/or δ₂ cannot bepre-configured or predefined, viz. Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂_(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F);

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Method (5-2): Higher layer signalling pre-configures two Δ_(F) _(—)_(PUCCH)(F) values: Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F), wherein:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) refers to Δ_(F) _(—) _(PUCCH)(F)parameter values corresponding to single-antenna port transmission modewhen the number of bits of uplink control information is smaller than orequal to L; as for ACK/NACK transmission, optimized, there is Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F)ε{−1,0,1,2} dB; Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F) represents the Δ_(F) _(—) _(PUCCH)(F) parameter valuescorresponding to multi-antenna port transmission mode when the number ofbits of uplink control information is smaller than or equal to L; as forACK/NACK transmission, optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₂(F)ε{−1,1,0,1,2} dB or Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F)ε{−2,−1,0,1} dB;

Therein, when UE determines Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F), theΔ_(F) _(—) _(PUCCH)(F) parameter value corresponding to single-antennaport transmission mode when the number of bits of uplink controlinformation is larger than L, and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F),the Δ_(F) _(—) _(PUCCH)(F) parameter value corresponding tomulti-antenna port transmission mode when the number of bits of uplinkcontrol information is larger than L, it can be obtained according topre-configured or predefined offset δ₁ and δ₂ based on Δ_(F) _(—)_(PUCCH) _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₃(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₁

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₂ or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—)₁ _(—) ₂(F)+δ₃;

Therein, δ₁, δ₂ and δ₃ can be either identical or different. The valueof δ₁ can lead to Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)ε{3,4,5,6} dB, andthose of δ₂ and δ₃ can lead to Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) e {3,4,5,6},with their specific value of 3 or 4; esp. when eNB and UE predefine toadopt the same Δ_(F) _(—) _(PUCCH)(F) parameter value for bothsingle-antenna and multi-antenna port transmission modes, only the valueof δ₁ shall be configured with δ₂ and δ₃ not pre-configured, viz. Δ_(F)_(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)+δ₁;

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

Moreover, higher layer signalling can also pre-configures one Δ_(F) _(—)_(PUCCH)(F) to represent one of the Δ_(F) _(—) _(PUCCH)(F) parametervalues corresponding to single-antenna port transmission mode andmulti-antenna port transmission mode when the number of bits of uplinkcontrol information is smaller than or equal to L, and the Δ_(F) _(—)_(PUCCH)(F) parameter values corresponding to single-antenna porttransmission mode and multi-antenna port transmission mode when it islarger than L, with the rest Δ_(F) _(—) _(PUCCH)(F) parameters obtainedaccording to pre-configured or is predefined offset based on theconfigured Δ_(F) _(—) _(PUCCH)(F) parameter value, for example:

Method (5-3): Higher layer signalling pre-configures one Δ_(F) _(—)_(PUCCH)(F) value, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), to representthe Δ_(F) _(—) _(PUCCH)(F) parameter value corresponding tosingle-antenna port transmission mode when the number of bits of uplinkcontrol information is smaller than or equal to L; as for ACK/NACKtransmission, optimized, there is Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)ε{−0,1,2} dB;

Therein, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), corresponding tomulti-antenna port transmission mode when the number of bits of uplinkcontrol information is smaller than or equal to L, as well as Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F),respectively corresponding to single-antenna port transmission mode andmulti-antenna port transmission mode when the number of bits of uplinkcontrol information is larger than L, can be obtained according topre-configured or predefined offset δ₁, δ₂ and δ₃ based on Δ_(F) _(—)_(PUCCH) _(—) ₁(F), viz.:

Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₁

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₂

Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₃

Therein, δ₁, δ₂ and δ₃ can be either identical or different. The valueof δ₁ can lead to Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−1,0,1,2} dB orΔ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)ε{−2,−1,0,1} dB, that of δ₂ can leadto Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)ε{3,4,5,6} dB and that of δ₃ canlead to Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)ε{2,3,4,5} dB or Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F)ε{3,4,5,6}, with specific value of 0 or −1 forδ₁ and 3 or 4 for δ₂ and δ₃; esp. when eNB and UE predefine to adopt thesame Δ_(F) _(—) _(PUCCH)(F) parameter value for both single-antenna andmulti-antenna port transmission modes, there is δ₁=6₃=0, viz. Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and Δ_(F)_(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)+δ₂, and only the value of δ₂shall be pre-configured with those of δ₁ and δ₃ not pre-configured; esp.when eNB and UE predefine to adopt the same Δ_(F) _(—) _(PUCCH)(F)parameter value when the number of bits of uplink control information isboth larger than L and smaller than or equal to L, there is δ₁=0, viz.Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F), and only the values of δ₁ and δ₃ shall be pre-configured with thatof δ₁ not pre-configured; esp. when eNB and UE predefine to adopt thesame Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits ofuplink control information is both larger than L and small than or equalto L, and also the same Δ_(F) _(—) _(PUCCH)(F) parameter value for bothsingle-antenna and multi-antenna port transmission modes, there isδ₁=δ₂=δ₃=0, viz. Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F)_(—) _(PUCCH) _(—) ₁ _(—) ₁(F), and the values of δ₁, δ₂ and δ₃ cannotbe pre-configured. Base station can select a proper value from the set{−1,0,1,2 3,4,5,6} of Δ_(F) _(—) _(PUCCH)(F) and directly configure itto UE through higher layer signalling to be as the Δ_(F) _(—)_(PUCCH)(F) parameter value corresponding to PUCCH format3.

Correspondingly, UE can select proper Δ_(F) _(—) _(PUCCH)(F) parametervalue according to whether the number of bits of uplink controlinformation is larger than the threshold L bits and the PUCCHtransmission mode.

In the aforementioned h(n_(CQI), n_(HARQ), n_(SR))) function, n_(HARQ)is the ACK/NACK bit number used for calculating power offset of PUCCHbearing bit number, and n_(SR) refers to the SR bit number used forcalculating power offset of PUCCH bearing bit number. If SR transmissionexists in current uplink sub-frame, there is n_(SR)=1; if does notexist, there is n_(SR)=0.

It should be noted that, h(n_(CQI), n_(HARQ), n_(SR)) function formulais given by taking ACK/NACK transmission as an example, not excludingthe transmission of other information.

It should be noted that, the antenna port mentioned above refers to theantenna port corresponding to PUCCH.

Next, the embodiments of the present invention are explained in adetailed way with reference to specific application scenes.

Scene I: When two downlink carriers are configured for UE anddual-codeword transmission mode is adopted, M=4, viz. UE needs to feedback the ACK/NACK feedback information of four downlink sub-frames inthe current uplink sub-frame. If according to UE configuration, UE needsto feed back 16 bits ACK/NACK information, viz. larger than 11 bits. Asshown in FIG. 5, PUCCH format 3 is adopted to transmit ACK/NACK, withthe specific power control process as below:

Base station end, operations concerning uplink power control mainlyinvolve configuring Δ_(F) _(—) _(PUCCH)(F) and receiving the data sentby UE in PUCCH channel according to the PUCCH transmit power estimated.Therein, the specific operations of configuring Δ_(F) _(—) _(PUCCH)(F)include:

Adopting method (1) to configure: According to UE configuration, selectone value from the corresponding set {−1,0,1,2} of Δ_(F) _(—)_(PUCCH)(F) when the number of bits of uplink control information issmaller than or equal to 11 bits, and the corresponding set {3,4,5,6} ofΔ_(F) _(—) _(PUCCH)(F) when it is larger than 11 bits respectively, suchas Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1 and Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3,then pre-configure to UE through higher layer signalling;

Adopting method (2) to configure: According to UE configuration, selectone value from the corresponding set {−1,0,1,2} of Δ_(F) _(—)_(PUCCH)(F) when the number of bits of uplink control information issmaller than or equal to 11 bits, such as Δ_(F) _(—) _(PUCCH) _(—)₁(F)=−1, and then pre-configure it to UE through higher layersignalling; besides, base station and UE predefine δ=4;

Adopting method (3) to configure: Only distinguish PUCCH transmissionmode when the number of bits of uplink control information is smallerthan or equal to 11 is bits. According to UR configuration, respectivelyselect one value from the set {−1,0,1,2} of Δ_(F) _(—) _(PUCCH)(F)corresponding to single-antenna port transmission mode when the numberof bits of uplink control information is smaller than or equal to 11bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)=−1, select one valuefrom the set {−2,−1,0,1} of Δ_(F) _(—) _(PUCCH)(F) corresponding tomulti-antenna port transmission mode when it is smaller than or equal to11 bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=−2, and select onevalue from the corresponding set {3,4,5,6} of Δ_(F) _(—) _(PUCCH)(F)when it is larger than 11 bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3,then pre-configure to UE through higher layer signalling;

Further adopting the evolution method of method (3), such as method(3-3): According to UE configuration, select a value from the set{−1,0,1,2} of Δ_(F) _(—) _(PUCCH)(F) corresponding to single-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to 11 bits, such as Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F)=−1, and then pre-configure it to UE throughhigher layer signalling; besides base station and UE can predefine δ₁=−1and δ₂=4;

Adopting method (4) to configure: Only distinguish PUCCH transmissionmode when the number of bits of uplink control information is largerthan 11 bits. According to UE configuration, respectively select onevalue from the set {−1,0,1,2} of Δ_(F) _(—) _(PUCCH)(F) when the numberof bits of uplink control information is smaller than or equal to 11bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1, select one value fromthe set {3,4,5,6} of Δ_(F) _(—) _(PUCCH)(F) corresponding tosingle-antenna port transmission mode when the number of bits of uplinkcontrol information is larger than 11 bits, such as Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₁(F)=3, and select one value from the set {2,3,4,5} of Δ_(F)_(—) _(PUCCH)(F) corresponding to multi-antenna port transmission modewhen the number of bits of uplink control information is larger than 11bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=2, and thenpre-configure to UE through higher layer signalling; Further adoptingthe evolution method of method (4), such as method (4-3): According toUE configuration, select one value from the corresponding set {−1,0,1,2}of Δ_(F) _(—) _(PUCCH)(F) when the number of bits of uplink controlinformation is smaller than or equal to 11 bits, such as Δ_(F) _(—)_(PUCCH) _(—) ₁(F)=−1, and then pre-configure it to UE through higherlayer signalling; besides, base station and UE predefine δ₁=4 and δ₂=3;

Adopting method (5) to configure: Simultaneously distinguish PUCCHtransmission mode when the number of bits of uplink control informationis both smaller than or equal to 11 bits and larger than 11 bits.According to UE configuration, respectively select one value from theset {−1,0,1,2} of Δ_(F) _(—) _(PUCCH)(F) corresponding to single-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to 11 bits, such as Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F)=−1, select one value from the set {−2,−1,0,1}of Δ_(F) _(—) _(PUCCH)(F) corresponding to multi-antenna porttransmission mode when it is smaller than or equal to 11 bits, such asΔ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=−2, select one value from the set{3,4,5,6} of Δ_(F) _(—) _(PUCCH)(F) corresponding to single-antenna porttransmission mode when the number of bits of uplink control informationis larger than 11 bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=3,and select one value from the set {2,3,4,5} of Δ_(F) _(—) _(PUCCH)(F)corresponding to multi-antenna port transmission mode when it is largerthan 11 bits, such as Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=2, thenpre-configure to UE through higher layer signalling;

Further adopting the evolution method of method (5), such as method(5-3): According to UE configuration, select one value from the set{−1,0,1,2} of Δ_(F) _(—) _(PUCCH)(F) corresponding to single-antennaport transmission mode when the number of bits of uplink controlinformation is smaller than or equal to 11 bits, such as Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F)=−1, and then configure it to UE through higherlayer signalling; besides, base station and UE predefine δ₁=−1, δ₂=4 andδ₃=3.

UE end: perform uplink power control, specifically process as followsfor different cases:

Case I: Whether PUCCH adopts single-antenna port transmission mode ormulti-antenna port transmission mode, UE selects the corresponding Δ_(F)_(—) _(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR)) function when thenumber of bits of uplink control information is larger than 11 bits, tocalculate PUCCH transmit power, viz.: UE adopts h(n_(CQI), n_(HARQ),n_(SR))=0.25 (n_(HARQ)+n_(SR))−0.75=0.25(12+0)−0.75=2.25 to calculatethe power offset corresponding to PUCCH bearing bit;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (1)mentioned above: UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (2)mentioned above: UE shall obtain Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F)_(—) _(PUCCH) _(—) ₁(F)+δ=−1+4=3 based on δ=4 and Δ_(F) _(—) _(PUCCH)_(—) ₁(F)=−1 configured by higher layer, to further calculate PUCCHtransmit power.

Case II: When PUCCH transmits with a single-antenna port transmissionmode: UE applies h(n_(CQI), n_(HARQ),n_(SR))=0.3·(n_(HARQ)+n_(SR))−1.5=0.3(12+0)−1.5=2.1 to calculate thepower offset corresponding to PUCCH bearing bit number;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (1)mentioned above: viz. adopting the same Δ_(F) _(—) _(PUCCH)(F) parametervalue for both single-antenna port transmission mode and sending gradingmode, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3 configured byhigher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (2)mentioned above: viz. adopting the same Δ_(F) _(—) _(PUCCH)(F) parametervalue for both single-antenna port transmission mode and sending gradingmode, UE shall obtain Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH)_(—) ₁(F)+δ=−1+4=3 based on δ=4 and Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is smaller than orequal to 11 bits, but not distinguishing when it is larger than 11 bits,UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3 configured by higherlayer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3-3)mentioned above: only distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is smaller than or equal to11 bits, but not distinguishing when it is larger than 11 bits, UE shallobtain Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)+δ₂=−1+4=3 based on δ₂=4 and Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)=−1configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (4)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is larger than 11 bits,but not distinguishing when it is smaller than or equal to 11 bits, UEshall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=3 configured by higherlayer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (4-3)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is larger than 11 bits,but not distinguishing when it is smaller than or equal to 11 bits, UEshall obtain Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH)_(—) ₁(F)+δ₁=−1+4=3 based on δ₁=4 and Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5)mentioned above: viz.

distinguishing PUCCH transmission mode when the number of bits of uplinkcontrol information is both smaller than or equal to 11 bits and largerthan 11 bits, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F)=3configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5-3)mentioned above: viz. distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is both smaller than orequal to 11 bits and larger than 11 bits, UE shall obtain Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₁(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)+δ₂=−1+4=3based on δ₂=4 and Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)=−1 configured byhigher layer, to further calculate PUCCH transmit power.

Case III: If PUCCH transmits with a multi-antenna port transmissionmode: UE adopts h(n_(CQI), n_(HARQ),n_(SR))=0.25·(n_(HARQ)+n_(SR))−0.75=0.25(12+0)−0.75=2.25 to calculatethe power offset corresponding to PUCCH bearing bit number;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (1)mentioned above: viz. adopting the same Δ_(F) _(—) _(PUCCH)(F) parametervalue for both single-antenna port transmission mode and sending gradingmode, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3 configured byhigher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (2)mentioned above: viz. adopting the same Δ_(F) _(—) _(PUCCH)(F) parametervalue for both single-antenna port transmission mode and sending gradingmode, UE shall obtain Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH)_(—) ₁(F)+δ=−1+4=3 based on δ=4 and Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1configured by higher layer, to further calculate PUCCH transmit power.

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is smaller than orequal to 11 bits, but not distinguishing when it is larger than 11 bits,UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=3 configured by higherlayer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3-3)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is smaller than orequal to 11 bits, but not distinguishing when it is larger than 11 bits,UE shall obtain Δ_(F) _(—) _(PUCCH) _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₁(F)+δ₂=−1+4=3 based on δ₂=4 and Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)=−1 configured by higher layer, to further calculate PUCCH transmitpower;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (4)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is larger than 11 bits,but not distinguishing when it is smaller than or equal to 11 bits, UEshall adopt Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=2 configured by higherlayer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (4-3)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is larger than 11 bits,but not distinguishing when it is smaller than or equal to 11 bits, UEshall obtain Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH)_(—) ₁(F)+δ₂=1+3=2 based on δ₂=3 and Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5)mentioned above: viz. distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is both smaller than orequal to 11 bits and larger than 11 bits, UE shall adopt Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F)=2 configured by higher layer, to furthercalculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5-3)mentioned above: viz. distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is both smaller than orequal to 11 bits and larger than 11 bits, UE shall obtain Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)+δ₃=−1+3=2based on δ₃=3 and Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)=−1 configured byhigher layer, to further calculate PUCCH transmit power.

Scene II: When two downlink carriers are configured for UE andsingle-codeword transmission mode is adopted, M=4, viz. UE needs to feedback the ACK/NACK feedback information of four downlink sub-frames inthe current uplink sub-frame. If according to UE configuration, UE needsto feed back 8 bits ACK/NACK information, viz. smaller than 11 bits. Asshown in FIG. 6, PUCCH format 3 is adopted to transmit ACK/NACK, withthe specific power control process as below: Processing operations ofbase station end are the same as the corresponding operations in sceneI, which will not be described here.

UE end: perform uplink power control, specifically process as followsfor different cases:

Case I: Whether PUCCH adopts single-antenna port transmission mode ormulti-antenna port transmission mode, UE selects the corresponding Δ_(F)_(—) _(PUCCH)(F) and h(n_(CQI), n_(HARQ), n_(SR)) function when thenumber of bits of uplink control information is smaller than or equal to11 bits, to calculate PUCCH transmit power, viz.:

UE adopts h(n_(CQI), n_(HARQ),n_(SR))=0.5·(n_(HARQ)+n_(SR))−1.3=0.5(6+0)−1.3=1.7 to calculate thepower offset corresponding to PUCCH bearing bit number;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (1) ormethod (2) mentioned above: UE shall adopt Δ_(F) _(—) _(PUCCH) _(—)₁(F)=−1 configured by higher layer, to further calculate PUCCH transmitpower;

Case II: If PUCCH transmits with a single-antenna port transmissionmode: UE adopts h(n_(CQI), n_(HARQ),n_(SR))=0.5·(n_(HARQ)+n_(SR))−1.3=0.5(6+0)−1.3=1.7 to calculate thepower offset corresponding to PUCCH bearing bit number;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (1) ormethod (2) mentioned above: viz. adopting the same Δ_(F) _(—)_(PUCCH)(F) parameter value for both single-antenna port transmissionmode and sending grading mode, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—)₁(F)=−1 configured by higher layer, to further calculate PUCCH transmitpower;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3) ormethod (3-3) mentioned above, viz. only distinguishing PUCCHtransmission mode when the number of bits of uplink control informationis smaller than or equal to 11 bits, but not distinguishing when it islarger than 11 bits, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₁(F)=−1 configured by higher layer, to further calculate PUCCH transmitpower;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (4) ormethod (4-3) mentioned above, viz. only distinguishing PUCCHtransmission mode when the number of bits of uplink control informationis larger than 11 bits, but not distinguishing when it is smaller thanor equal to 11 bits, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1configured by higher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5) ormethod (5-3), viz. distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is both smaller than orequal to 11 bits and larger than 11 bits, UE shall adopt Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F)=−1 configured by higher layer, to furthercalculate PUCCH transmit power;

Case III: If PUCCH transmits with a multi-antenna port transmissionmode: UE adopts h(n_(CQI), n_(HARQ),n_(SR))=0.35·(n_(HARQ)+n_(SR))−0.6=0.35(6+0)−0.6=1.5 to calculate thepower offset corresponding to PUCCH bearing bit number;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (1) ormethod (2): viz. is adopting the same Δ_(F) _(—) _(PUCCH)(F) parametervalue for both single-antenna port transmission mode and sending gradingmode, UE shall adopt Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1 configured byhigher layer, to further calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3): viz.only distinguishing PUCCH transmission mode when the number of bits ofuplink control information is smaller than or equal to 11 bits, but notdistinguishing when it is larger than 11 bits, UE shall adopt Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F)=−2 configured by higher layer, to furthercalculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (3-3)mentioned above: viz. only distinguishing PUCCH transmission mode whenthe number of bits of uplink control information is smaller than orequal to 11 bits, but not distinguishing when it is larger than 11 bits,UE shall obtain Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F)=Δ_(F) _(—) _(PUCCH)_(—) ₁ _(—) ₁(F)+δ₁=−1+−1=−2 based on δ₁=−1 and Δ_(F) _(—) _(PUCCH) _(—)₁ _(—) ₁(F)=−1 configured by higher layer, to further calculate PUCCHtransmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (4) ormethod (4-3): viz. only distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is larger than 11 bits, butnot distinguishing when it is smaller than or equal to 11 bits, UE shalladopt Δ_(F) _(—) _(PUCCH) _(—) ₁(F)=−1 configured by higher layer, tofurther calculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5)mentioned above: viz. distinguishing PUCCH transmission mode when thenumber of bits of uplink control information is both smaller than orequal to 11 bits and larger than 11 bits, UE shall adoptΔ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₂(F)=−2 configured by higher layer, to furthercalculate PUCCH transmit power;

When Δ_(F) _(—) _(PUCCH)(F) is configured according to method (5-3):viz. distinguishing PUCCH transmission mode when the number of bits ofuplink control information is both smaller than or equal to 11 bits andlarger than 11 bits, UE shall obtain Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)+δ₁=−1−1=−2 based on δ₁=−1 andΔ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)=−1 configured by higher layer, tofurther calculate PUCCH transmit power.

It should be noted that it is described by taking ACK/NACK feedbackinformation as the example in the aforementioned embodiments, which isalso applicable to the conditions when PUCCH sending other feedbackinformation.

It can be learnt from the above descriptions that, in LTE-A system, themethod of adopting different Δ_(F) _(—) _(PUCCH)(F) and h(n_(CQI),n_(HARQ), n_(SR)) functions to calculate PUCCH transmit power accordingto bit number of uplink feedback information and/or PUCCH transmissionmode can guarantee that UE sends data by proper power, thus avoidingpower waste and improving UE power utilization.

Based on same technological idea, the embodiments of the presentinvention also put forward a kind of user equipment applicable to theabove process, and also a network-side device.

As shown in FIG. 7, the user equipment provided by the embodiments ofthe present invention includes:

Receiving module 701, used for receiving data in M downlink sub-framesof N downlink carriers, wherein, N≧1 and M≧1;

Control information generation module 702, used for generating uplinkcontrol information of the M downlink sub-frames that can be transmittedin one uplink sub-frame;

Power control module 703, used to determine Δ_(F) _(—) _(PUCCH)(F) andh(n) for calculating PUCCH transmit power according to whether thenumber of bits of the uplink control information generated based on thecontrol information generation module is larger than a predefinedthreshold, and calculates the transmit power used to send the uplinkcontrol information on PUCCH based on the determined Δ_(F) _(—)_(PUCCH)(F) and h(n); wherein, the Δ_(F) _(—) _(PUCCH)(F) represents thepower offset of PUCCHs in different formats relative to PUCCH format 1a,and the h(n) represents the power offset corresponding to the number oftransmission bits of the PUCCH;

Sending module 704, used for sending the generated uplink controlinformation on PUCCH by applying the calculated transmit power.

In the above user equipment, power control module 703 is specificallyused for determining Δ_(F) _(—) _(PUCCH)(F)=Δ_(F) _(—) _(PUCCH) _(—)₁(F) and h(n)=h₁(n)=a₁·n+b₁ when the number of bits of uplink controlinformation is not larger than the predefined threshold, wherein a₁ andb₁ are the coefficient values of h₁(n) function, or determining Δ_(F)_(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode; viz.determining Δ_(F) _(—) _(PUCCH)(F) as the corresponding Δ_(F) _(—)_(PUCCH)(F) when the number of bits of uplink control information is notlarger than the predefined threshold, wherein h(n) refers to thecorresponding h₁(n)=a₁·n+b₁ when the number of bits of uplink controlinformation is not larger than the predefined threshold;

Determine Δ_(F) _(—) _(PUCCH)(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂(F) andh(n)=h₂(n)=a₂·n+b₂ when the number of bits of uplink control informationis larger than the predefined threshold, wherein a₂ and b₂ are thecoefficient values of h₂(n) function, or determine Δ_(F) _(—)_(PUCCH)(F) and h(n) based on PUCCH transmission mode; viz. determiningΔ_(F) _(—) _(PUCCH)(F) as the corresponding Δ_(F) _(—) _(PUCCH) _(—)₂(F) when the number of bits of uplink control information is largerthan the predefined threshold, h(n) refers to the correspondingh₂(n)=a₂·n+b₂ when the number of bits of uplink control information islarger than the predefined threshold.

To be specific, power control module 703 determines h₁(n)=0.5·n−1.3according to the determined Δ_(F) _(—) _(PUCCH) _(—) ₁(F)ε{−1,0,1,2} dB.

To be specific, power control module 703 determines h₂(n)=0.25·n−0.75according to the determined Δ_(F) _(—) _(PUCCH) _(—) ₂(F)ε{2,3,4,5} dBor Δ_(F) _(—) _(PUCCH) _(—) ₂(F)ε{3,4,5,6} dB.

The above power control module 703 can also obtain Δ_(F) _(—)_(PUCCH)(F) by one of the following modes:

is Mode I: Receive the two Δ_(F) _(—) _(PUCCH)(F) parameter valuespre-configured by higher layer signalling, Δ_(F) _(—) _(PUCCH) _(—) ₁(F)and Δ_(F) _(—) _(PUCCH) _(—) ₂(F);

Mode II: Receive one Δ_(F) _(—) _(PUCCH)(F) value pre-configured byhigher layer signalling, and obtain the rest Δ_(F) _(—) _(PUCCH)(F)values based on the configured Δ_(F) _(—) _(PUCCH)(F) value and one δvalue; wherein δ refers to the predefined offset or the offsetpre-configured by higher layer signalling.

In the above user equipment, power control module 703 is specificallyused for determining Δ_(F) _(—) _(PUCCH)(F) and h(n) as the Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F) and h₁ _(—) ₁(n)=a₁ _(—) ₁·n+b₁ _(—) ₁corresponding to single-antenna port transmission if PUCCH transmitsinformation with a single-antenna port transmission mode when the numberof bits of uplink control information is not larger than the predefinedthreshold, wherein a₁ _(—) ₁ and b₁ _(—) ₁ are the coefficient values ofh₁ _(—) ₁(n) function; and determining Δ_(F) _(—) _(PUCCH)(F) and h(n)as the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) and h₁ _(—)₂(n)=a₁ _(—) ₂·n+b₁ _(—) ₂ of multi-antenna port transmission mode ifPUCCH transmits information with a multi-antenna port transmission mode,wherein a₁ _(—) ₂ and b₁ _(—) ₂ refer to the coefficient values of h₁_(—) ₂(n) function.

To be specific, power control module 703 determines h₁ _(—)₁(n)=0.5·n−1.3 according to the determined Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₁(F)ε{1,0,1,2} dB.

To be specific, power control module 703 determines h₁ _(—)₂(n)=0.35·n−0.6 according to the determined Δ_(F) _(—) _(PUCCH) _(—) ₁_(—) ₂(F)ε{−1,0,1,2} dB or Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—)₂(F)ε{−2,−1,0,1} dB.

In the above user equipment, power control module 703 is specificallyused for determining Δ_(F) _(—) _(PUCCH)(F) and h(n) as the Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₁(F) and h₂ _(—) ₁(n)=a₂ _(—) ₁·n+b₂ _(—) ₁corresponding to single-antenna port transmission if PUCCH transmitsinformation with a single-antenna port transmission mode when the numberof bits of uplink control information is larger than the predefinedthreshold, wherein a₂ _(—) ₁ and b₂ _(—) ₁ are the coefficient values ofh₂ _(—) ₁(n) function; and determining Δ_(F) _(—) _(PUCCH)(F) and h(n)as the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) and h₂ _(—)₂(n)=a₂ _(—) ₂·n+b₂ _(—) ₂ of multi-antenna port transmission mode ifPUCCH transmits information with a multi-antenna port transmission mode,wherein a₂ _(—) ₂ and b₂ _(—) ₂ refer to the coefficient values of h₂_(—) ₂ (n) function.

To be specific, power control module 703 determines h₂ _(—)₁(n)=0.3·n−1.5 according to the determined Δ_(F) _(—) _(PUCCH) _(—) ₂_(—) ₁(F)ε{3,4,5,6} dB.

To be specific, power control module determines h₂ _(—) ₂(n)=0.25·n−0.75according to the determined Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—)₂(F)ε{2,3,4,5} dB or Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F)ε{3,4,5,6} dB.

In the above user equipment, power control module 703 obtains Δ_(F) _(—)_(PUCCH)(F) by the following methods;

Mode III: Receive the three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) andΔ_(F) _(—) _(PUCCH) _(—) ₂(F), which are pre-configured by higher layersignalling.

In the above user equipment, power control module 703 obtains Δ_(F) _(—)_(PUCCH)(F) by the following methods;

Mode IV: Receive the three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F), which are pre-configured by higher layersignalling.

In the above user equipment, power control module 703 obtains Δ_(F) _(—)_(PUCCH)(F) by one of the following methods:

Mode V: Receive the four Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), Δ_(F)_(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F),which are pre-configured by higher layer signalling;

Mode VI: Receive at least one Δ_(F) _(—) _(PUCCH)(F) pre-configured byhigher layer signalling, and obtain the rest Δ_(F) _(—) _(PUCCH)(F)values according to at least one configured Δ_(F) _(—) _(PUCCH)(F) andat least one δ value, Δ_(F) _(—) _(PUCCH) _(—) ₁(F) Δ_(F) _(—) _(PUCCH)_(—) ₁(F);

Therein, δ refers to the predefined offset or the offset pre-configuredby higher layer signalling.

In the above user equipment, in the n=n_(HARQ)+n_(SR), n_(HARQ)corresponds to the ACK/NACK bit number used to calculate h(n), andn_(SR)={0,1} means whether SR transmission exists in the current uplinksub-frame.

In the above user equipment, the value of predefined threshold is 11.

In the above user equipment, the uplink control information includes oneof the following information: ACK/NACK feedback information,CQI/PMI/RI/PTI feedback information and SR information.

In the above user equipment, the uplink control information refers tothe bundled uplink control information.

As shown in FIG. 8, the network equipment provided by the embodiments ofthe present invention can be base station equipment, which can include:

Configuration module 801, used for configuring the Δ_(F) _(—)_(PUCCH)(F) parameter of transmit power of uplink control channel touser equipment, and the Δ_(F) _(—) _(PUCCH)(F) represents the poweroffset of PUCCHs in different formats relative to PUCCH format 1a;

Receiving module 802, used for receiving the uplink control informationsent by the user equipment on PUCCH, wherein, the transmit power onPUCCH is determined by the user equipment according to the configuredΔ_(F) _(—) _(PUCCH)(F).

In the above network equipment, configuration module 801 can configureΔ_(F) _(—) _(PUCCH)(F) parameter to user equipment by one of thefollowing modes:

Mode I: Pre-configure two Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F), to user equipmentthrough higher layer signalling;

Mode II: Pre-configure one Δ_(F) _(—) _(PUCCH)(F) value to userequipment through higher layer signalling, and obtain the rest Δ_(F)_(—) _(PUCCH)(F) values based on the configured Δ_(F) _(—) _(PUCCH)(F)value and one δ value;

Mode III: Pre-configure three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) andΔ_(F) _(—) _(PUCCH) _(—) ₂(F), to user equipment through higher layersignalling;

Mode IV: Pre-configure three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—)_(PUCCH) _(—) ₂ _(—) ₂(F), to user equipment through higher layersignalling;

Mode V: Pre-configure four Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—)_(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), Δ_(F)_(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F),to user equipment through higher layer signalling;

Mode VI: Pre-configure at least one Δ_(F) _(—) _(PUCCH)(F) to userequipment through higher layer signalling, and obtain the rest Δ_(F)_(—) _(PUCCH)(F) values based on at least one configured Δ_(F) _(—)_(PUCCH)(F) and at least one δ value;

Therein, Δ_(F) _(—) _(PUCCH) _(—) ₁(F) is the Δ_(F) _(—) _(PUCCH)(F)parameter value when the number of bits of uplink control information isnot larger than the predefined threshold when transmission mode is notdistinguished, Δ_(F) _(—) _(PUCCH) _(—) ₂(F) refers to Δ_(F) _(—)_(PUCCH)(F) parameter value when the number of bits of uplink controlinformation is larger than the predefined threshold when transmissionmode is not distinguished, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F)represents the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value whenthe number of bits of uplink control information is not larger than thepredefined threshold and PUCCH adopts single-antenna port transmissionmode, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) is the corresponding Δ_(F)_(—) _(PUCCH)(F) parameter value when the number of bits of uplinkcontrol information is not larger than the predefined threshold andPUCCH adopts multi-antenna port transmission mode, Δ_(F) _(—) _(PUCCH)_(—) ₂ _(—) ₁(F) refers to the corresponding Δ_(F) _(—) _(PUCCH)(F)parameter value when the number of bits of uplink control information islarger than the predefined threshold and PUCCH adopts single-antennaport transmission mode, Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) representsthe corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when the numberof bits of uplink control information is larger than the predefinedthreshold and PUCCH adopts multi-antenna port transmission mode, and δrefers to the predefined offset or the offset pre-configured by higherlayer signalling. Through the description of the embodiments above, thetechnical personnel in this field can understand clearly that thepresent invention can be implemented by software and necessary generalhardware platform or hardware (the former is better in most cases).Based on this understanding, the technical program or the part makingcontributions to the prior art of the present invention can be embodiedby a form of software products essentially which can be stored in astorage medium, including a number of instructions for making a terminaldevice (such as cell phone, personal computers, servers, or networkequipments, etc.) implement the methods described in the embodiments ofthe present invention.

The descriptions above are just preferred implement ways of the presentinvention. It should be pointed that, for general technical personnel inthis field, some improvement and decorating can be done withoutdeviating from the principle of the present invention, which should beas the protection scope of the present invention.

1-29. (canceled)
 30. An uplink power control method, wherein, comprising: user equipment receiving data in M downlink sub-frames of N downlink carriers and generating uplink control information, wherein N≧1, M≧1, and said uplink control information of the M downlink sub-frames is transmitted in one uplink sub-frame; said user equipment determining Δ_(F) _(—) _(PUCCH)(F) and h(n) which are used to calculate the transmit power of a physical uplink control channel (PUCCH) according to whether the number of bits of the uplink control information is larger than a predefined threshold; wherein, said Δ_(F) _(—) _(PUCCH)(F) represents the power offset of different PUCCH formats relative to the PUCCH format 1a, and said h(n) represents the power offset corresponding to the number of transmission bits of the PUCCH; said user equipment calculating the PUCCH transmit power according to the determined Δ_(F) _(—) _(PUCCH)(F) and h(n), and sending said generated uplink control information on the PUCCH using the calculated transmit power.
 31. The method according to claim 30, wherein, said user equipment determining Δ_(F) _(—) _(PUCCH)(F) and h(n) for calculating the transmit power of a physical uplink control channel (PUCCH) according to whether the number of bits of the uplink control information is larger than a predefined threshold, comprises: when the number of bits of said uplink control information is not larger than said predefined threshold, said user equipment determining Δ_(F) _(—) _(PUCCH)(F)=Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and h(n)=h₁(n)=a₁·n+b₁, wherein a₁ and b₁ refer to the coefficient values of h₁(n) function, or determining Δ_(F) _(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode; when the number of bits of said uplink control information is larger than said predefined threshold, said user equipment determining Δ_(F) _(—) _(PUCCH)(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂(F) and h(n)=h₂(n)=a₂·n+b₂, wherein a₂ and b₂ refer to the coefficient values of h₂ (n) function, or determining Δ_(F) _(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode.
 32. The method according to claim 30, wherein, said user equipment obtaining Δ_(F) _(—) _(PUCCH)(F) through one of the following modes: mode I: Said user equipment receiving two Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F) which are pre-configured by higher layer signaling; mode II: Said user equipment receiving one Δ_(F) _(—) _(PUCCH)(F) value pre-configured by higher layer signaling, and obtaining the rest Δ_(F) _(—) _(PUCCH)(F) values based on the pre-configured Δ_(F) _(—) _(PUCCH)(F) value and one δ value; therein, δ refers to the predefined offset or the offset pre-configured by higher layer signaling.
 33. The method according to claim 31, wherein, when the number of bits of said uplink control information is not larger than said predefined threshold, said user equipment determining Δ_(F) _(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode, comprises: if PUCCH transmits information with a single-antenna port transmission mode, the Δ_(F) _(—) _(PUCCH)(F) and h(n) determined by said user equipment refer to the Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and h₁ _(—) ₁(n)=a₁ _(—) ₁·n+b₁ _(—) ₁ corresponding to the single-antenna port transmission mode, wherein a₁ _(—) ₁ and b₁ _(—) ₁ are the coefficient values of hAn) function; if PUCCH transmits information with a multi-antenna port transmission mode, the Δ_(F) _(—) _(PUCCH)(F) and h(n) determined by said user equipment refer to the Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) and h₁ _(—) ₂(n)=a₁ _(—) ₂·n+b₁ _(—) ₂ corresponding to the multi-antenna port transmission mode, wherein a₁ _(—) ₂ and b₁ _(—) ₂ are the coefficient values of h₁ _(—) ₂(n) function; when the number of bits of said uplink control information is larger than said predefined threshold, said user equipment determining Δ_(F) _(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode, comprises: if PUCCH transmits information with a single-antenna port transmission mode, the Δ_(F) _(—) _(PUCCH)(F) and h(n) determined by said user equipment refer to the Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and h₂ _(—) ₁n=a₂ _(—) ₁·n+b₂ _(—) ₁ corresponding to the single-antenna port transmission mode, wherein a₂ _(—) ₁ and b₂ _(—) ₁ are the coefficient values of h₂ _(—) ₁(n) function; if PUCCH transmits information with a multi-antenna port transmission mode, the Δ_(F) _(—) _(PUCCH)(F) and h(n) determined by said user equipment refer to the Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) and h₂ _(—) ₂(n)=a₂ _(—) ₂·n+b₂ _(—) ₂ corresponding to the multi-antenna port transmission mode, wherein a₂ _(—) ₂ and b₂ _(—) ₂ are the coefficient values of h₂ _(—) ₂(n) function.
 34. The method according to claim 33, wherein, said user equipment obtaining Δ_(F) _(—) _(PUCCH)(F) through one of the following modes: mode III: Said user equipment receiving the three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F), which are pre-configured by higher layer signaling; mode IV: Said user equipment receiving the three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), which are pre-configured by higher layer signaling; mode V: Said user equipment receiving the four Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) which are pre-configured by higher layer signaling; mode VI: Said user equipment receiving at least one Δ_(F) _(—) _(PUCCH)(F) pre-configured by higher layer signaling, and obtaining the rest Δ_(F) _(—) _(PUCCH)(F) values based on said at least one pre-configured Δ_(F) _(—) _(PUCCH)(F) and at least one 8 value; Therein, δ refers to the predefined offset or the offset pre-configured by higher layer signaling.
 35. The method according to claim 30, wherein, in said n=n_(HARQ)+n_(SR), n_(HARQ) corresponds to the bit number of ACK/NACK used for calculating h(n), and n_(SR)={0,1} represents whether SR transmission exists in current uplink sub-frame.
 36. The method according to claim 30, wherein, the value of said predefined threshold refers to
 11. 37. The method according to claim 30, wherein, said uplink control information includes one of the following information: ACK/NACK feedback information, CQI/PMI/RI/PTI feedback information and SR information.
 38. The method according to claim 30, wherein, said uplink control information refers to the uplink control information after bundling.
 39. The method according to claim 30, wherein, said PUCCH refers to the PUCCH format 1b channel which is used in PUCCH format 1b with channel selection transmission scheme, or the channel which is used in the transmission scheme based on the combination of DFT-S-OFDM and time-domain spreading.
 40. A user equipment, wherein, comprising: receiving module, used to receive data in M downlink sub-frames of N downlink carriers; wherein N≧1 and M≧1, control information generation module, used to generate uplink control information of the M downlink sub-frames that can be transmitted in one uplink sub-frame. power control module, used to determine Δ_(F) _(—) _(PUCCH)(F) and h(n) which are used to calculate the PUCCH transmit power according to whether the number of bits of the uplink control information generated based on the control information generation module is larger than a predefined threshold, and calculate the transmit power used to send the uplink control information on PUCCH based on the determined Δ_(F) _(—) _(PUCCH)(F) and h(n); wherein, the Δ_(F) _(—) _(PUCCH)(F) represents the power offset of different PUCCH formats relative to the PUCCH format 1a, and the h(n) represents the power offset corresponding to the number of transmission bits of the PUCCH; sending module, used to send the generated uplink control information on PUCCH using the calculated transmit power.
 41. The user equipment according to claim 40, wherein, said power control module is specifically used to: when the number of bits of said uplink control information is not larger than the predefined threshold, determine Δ_(F) _(—) _(PUCCH)(F) Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and h(n)=h₁(n)=a₁·n+b₁ wherein a₁ and b₁ are the coefficient values of h₁(n) function, or determine Δ_(F) _(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode; when the number of bits of uplink control information is larger than predefined threshold, determineand Δ_(F) _(—) _(PUCCH)(F)=Δ_(F) _(—) _(PUCCH) _(—) ₂(F) and h(n)=h₂(n)=a₂·n+b₂, wherein a₂ and b₂ are the coefficient values of h₂ (n) function, or determine Δ_(F) _(—) _(PUCCH)(F) and h(n) based on PUCCH transmission mode.
 42. The user equipment according to claim 41, wherein, said power control module obtaining Δ_(F) _(—) _(PUCCH)(F) through one of the following modes: mode I: Receive the two Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F), which are pre-configured by higher layer signaling; mode II: Receive one Δ_(F) _(—) _(PUCCH)(F) value pre-configured by higher layer signaling, and obtain the rest Δ_(F) _(—) _(PUCCH)(F) values based on the pre-configured Δ_(F) _(—) _(PUCCH)(F) value and one δ value; therein, δ refers to the predefined offset or the offset pre-configured by higher layer signaling.
 43. The user equipment according to claim 41, wherein, said power control module is specifically used to: when the number of bits of said uplink control information is not larger than predefined threshold, if PUCCH transmits information with a single-antenna port transmission mode, determine Δ_(F) _(—) _(PUCCH)(F) and h(n) as the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) and h₁ _(—) ₁(n)=a₁ _(—) ₁·n+b₁ _(—) ₁ of single-antenna port transmission mode, wherein a₁ _(—) ₁ and b₁ _(—) ₁ are the coefficient values of h₁ _(—) ₁(n) function; and if PUCCH transmits information with a multi-antenna port transmission mode, determine Δ_(F) _(—) _(PUCCH)(F) and h(n) as the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) and h₁ _(—) ₂ (n)=a₁ _(—) ₂·n+b₁ _(—) ₂ of multi-antenna port transmission mode, wherein a₁ _(—) ₂ and b₁ _(—) ₂ are the coefficient values of h₁ _(—) ₂(n) function; or, when the number of bits of said uplink control information is larger than predefined threshold, if PUCCH transmits information with a single-antenna port transmission mode, determine Δ_(F) _(—) _(PUCCH)(F) and h(n) as the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and h₂ _(—) ₁(n)=a₂ _(—) ₁·n+b₂ _(—) ₁ of single-antenna port transmission mode, wherein a₂ _(—) ₁ and b₂ _(—) ₁ are the coefficient values of h₂ _(—) ₁(n) function; and if PUCCH transmits information with a multi-antenna port transmission mode, determine Δ_(F) _(—) _(PUCCH)(F) and h(n) as the corresponding Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) and h₂ _(—) ₂(n)=a₂ _(—) ₂·n+b₂ _(—) ₂ of multi-antenna port transmission mode, wherein a₂ _(—) ₂ and b₂ _(—) ₂ are the coefficient values of h₂ _(—) ₂(n) function.
 44. The user equipment according to claim 43, wherein, said power control module obtaining Δ_(F) _(—) _(PUCCH)(F) through one of the following modes: mode III: Receive the three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F), which are pre-configured by higher layer signaling; mode IV: Receive the three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), which are pre-configured by higher layer signaling; mode V: Receive the four Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F), which are pre-configured by higher layer signaling; mode VI: Receive at least one Δ_(F) _(—) _(PUCCH)(F) pre-configured by higher layer signaling, and obtain other Δ_(F) _(—) _(PUCCH)(F) values base on said at least one pre-configured Δ_(F) _(—) _(PUCCH)(F) and at least one 8 value; Therein, δ refers to the predefined offset or the offset pre-configured by higher layer signaling.
 45. The user equipment according to claim 40, wherein, in said n=n_(HARQ)+n_(SR), n_(HARQ) corresponds to the bit number of ACK/NACK used for calculating h(n), and n_(SR)={0,1} represents whether SR transmission exists in current uplink sub-frame.
 46. The user equipment according to claim 40, wherein, the value of said predefined threshold refers to
 11. 47. The user equipment according to claim 40, wherein, said uplink control information includes one of the following information: ACK/NACK feedback information, CQI/PMI/RI/PTI feedback information and SR information; and/or, said uplink control information refers to the uplink control information after bundling.
 48. A power control parameter configuration method, wherein, comprising: network configuring the Δ_(F) _(—) _(PUCCH)(F) parameter which is used to calculate the transmit power of uplink control channel to user equipment, wherein said Δ_(F) _(—) _(PUCCH)(F) represents the power offset of different PUCCH formats relative to the PUCCH format 1a; network side receiving the uplink control information sent by said user equipment on PUCCH, wherein PUCCH transmit power is determined by said user equipment according to said Δ_(F) _(—) _(PUCCH)(F) configured.
 49. The method according to claim 48, wherein, network side configuring Δ_(F) _(—) _(PUCCH)(F) parameter to user equipment through one of the following modes: mode I: Pre-configuring two Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH)(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F) to user equipment through higher layer signalling; mode II: Pre-configuring one Δ_(F) _(—) _(PUCCH)(F) value to user equipment through higher layer signaling, and obtaining other Δ_(F) _(—) _(PUCCH)(F) values based on the pre-configured Δ_(F) _(—) _(PUCCH)(F) value and one δ value; mode III: Pre-configuring three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂(F) to user equipment through higher layer signaling; mode IV: Pre-configuring three Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F), and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) to user equipment through higher layer signaling; mode V: Pre-configuring four Δ_(F) _(—) _(PUCCH)(F) values, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F), Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F), Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) and Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) to user equipment through higher layer signaling; mode VI: Pre-configuring at least one Δ_(F) _(—) _(PUCCH)(F) to user equipment through higher layer signaling, and obtaining other Δ_(F) _(—) _(PUCCH)(F) values based on said at least one pre-configured Δ_(F) _(—) _(PUCCH)(F) and at least one 8 value; therein, Δ_(F) _(—) _(PUCCH) _(—) ₁(F) refers to the Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits of uplink control information is not larger than predefined threshold and the transmission mode is not distinguished, Δ_(F) _(—) _(PUCCH) _(—) ₂(F) refers to the Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits of uplink control information is larger than predefined threshold and the transmission mode is not distinguished, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₁(F) refers to the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits of uplink control information is not larger than predefined threshold and PUCCH adopts a single-antenna port transmission mode, Δ_(F) _(—) _(PUCCH) _(—) ₁ _(—) ₂(F) refers to the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits of uplink control information is not larger than predefined threshold and PUCCH adopts a multi-antenna port transmission mode, Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₁(F) refers to the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits of uplink control information is larger than predefined threshold and PUCCH adopts a single-antenna port transmission mode, Δ_(F) _(—) _(PUCCH) _(—) ₂ _(—) ₂(F) refers to the corresponding Δ_(F) _(—) _(PUCCH)(F) parameter value when the number of bits of uplink control information is larger than predefined threshold and PUCCH adopts a multi-antenna port transmission mode, and δ refers to the predefined offset or the offset pre-configured by higher layer signaling. 